This commit was manufactured by cvs2svn to create branch 'rp-pppoe'.topic/rp-pppoe

1 files changed, 0 insertions, 464 deletions

diff --git a/mdk-stage1/slang/slarrfun.c b/mdk-stage1/slang/slarrfun.c
deleted file mode 100644
index bfa6ec5e5..000000000
--- a/mdk-stage1/slang/slarrfun.c
+++ /dev/null
@@ -1,464 +0,0 @@
-/* Advanced array manipulation routines for S-Lang */
-/* Copyright (c) 1998, 1999, 2001 John E. Davis
- * This file is part of the S-Lang library.
- *
- * You may distribute under the terms of either the GNU General Public
- * License or the Perl Artistic License.
- */
-
-#include "slinclud.h"
-
-#include "slang.h"
-#include "_slang.h"
-
-static int next_transposed_index (int *dims, int *max_dims, unsigned int num_dims)
-{
-   int i;
-
-   for (i = 0; i < (int) num_dims; i++)
-     {
-	int dims_i;
-
-	dims_i = dims [i] + 1;
-	if (dims_i != (int) max_dims [i])
-	  {
-	     dims [i] = dims_i;
-	     return 0;
-	  }
-	dims [i] = 0;
-     }
-
-   return -1;
-}
-
-static SLang_Array_Type *allocate_transposed_array (SLang_Array_Type *at)
-{
-   unsigned int num_elements;
-   SLang_Array_Type *bt;
-   VOID_STAR b_data;
-
-   num_elements = at->num_elements;
-   b_data = (VOID_STAR) SLmalloc (at->sizeof_type * num_elements);
-   if (b_data == NULL)
-     return NULL;
-
-   bt = SLang_create_array (at->data_type, 0, b_data, at->dims, 2);
-   if (bt == NULL)
-     {
-	SLfree ((char *)b_data);
-	return NULL;
-     }
-
-   bt->dims[1] = at->dims[0];
-   bt->dims[0] = at->dims[1];
-
-   return bt;
-}
-
-#define GENERIC_TYPE float
-#define TRANSPOSE_2D_ARRAY transpose_floats
-#define GENERIC_TYPE_A float
-#define GENERIC_TYPE_B float
-#define GENERIC_TYPE_C float
-#define INNERPROD_FUNCTION innerprod_float_float
-#if SLANG_HAS_COMPLEX
-# define INNERPROD_COMPLEX_A innerprod_complex_float
-# define INNERPROD_A_COMPLEX innerprod_float_complex
-#endif
-#include "slarrfun.inc"
-
-#define GENERIC_TYPE double
-#define TRANSPOSE_2D_ARRAY transpose_doubles
-#define GENERIC_TYPE_A double
-#define GENERIC_TYPE_B double
-#define GENERIC_TYPE_C double
-#define INNERPROD_FUNCTION innerprod_double_double
-#if SLANG_HAS_COMPLEX
-# define INNERPROD_COMPLEX_A innerprod_complex_double
-# define INNERPROD_A_COMPLEX innerprod_double_complex
-#endif
-#include "slarrfun.inc"
-
-#define GENERIC_TYPE_A double
-#define GENERIC_TYPE_B float
-#define GENERIC_TYPE_C double
-#define INNERPROD_FUNCTION innerprod_double_float
-#include "slarrfun.inc"
-
-#define GENERIC_TYPE_A float
-#define GENERIC_TYPE_B double
-#define GENERIC_TYPE_C double
-#define INNERPROD_FUNCTION innerprod_float_double
-#include "slarrfun.inc"
-
-/* Finally pick up the complex_complex multiplication
- * and do the integers
- */
-#if SLANG_HAS_COMPLEX
-# define INNERPROD_COMPLEX_COMPLEX innerprod_complex_complex
-#endif
-#define GENERIC_TYPE int
-#define TRANSPOSE_2D_ARRAY transpose_ints
-#include "slarrfun.inc"
-
-#if SIZEOF_LONG != SIZEOF_INT
-# define GENERIC_TYPE long
-# define TRANSPOSE_2D_ARRAY transpose_longs
-# include "slarrfun.inc"
-#else
-# define transpose_longs transpose_ints
-#endif
-
-#if SIZEOF_SHORT != SIZEOF_INT
-# define GENERIC_TYPE short
-# define TRANSPOSE_2D_ARRAY transpose_shorts
-# include "slarrfun.inc"
-#else
-# define transpose_shorts transpose_ints
-#endif
-
-#define GENERIC_TYPE char
-#define TRANSPOSE_2D_ARRAY transpose_chars
-#include "slarrfun.inc"
-
-/* This routine works only with linear arrays */
-static SLang_Array_Type *transpose (SLang_Array_Type *at)
-{
-   int dims [SLARRAY_MAX_DIMS];
-   int *max_dims;
-   unsigned int num_dims;
-   SLang_Array_Type *bt;
-   int i;
-   unsigned int sizeof_type;
-   int is_ptr;
-   char *b_data;
-
-   max_dims = at->dims;
-   num_dims = at->num_dims;
-
-   if ((at->num_elements == 0)
-       || (num_dims == 1))
-     {
-	bt = SLang_duplicate_array (at);
-	if (num_dims == 1) bt->num_dims = 2;
-	goto transpose_dims;
-     }
-
-   /* For numeric arrays skip the overhead below */
-   if (num_dims == 2)
-     {
-	bt = allocate_transposed_array (at);
-	if (bt == NULL) return NULL;
-
-	switch (at->data_type)
-	  {
-	   case SLANG_INT_TYPE:
-	   case SLANG_UINT_TYPE:
-	     return transpose_ints (at, bt);
-	   case SLANG_DOUBLE_TYPE:
-	    return transpose_doubles (at, bt);
-	   case SLANG_FLOAT_TYPE:
-	     return transpose_floats (at, bt);
-	   case SLANG_CHAR_TYPE:
-	   case SLANG_UCHAR_TYPE:
-	     return transpose_chars (at, bt);
-	   case SLANG_LONG_TYPE:
-	   case SLANG_ULONG_TYPE:
-	     return transpose_longs (at, bt);
-	   case SLANG_SHORT_TYPE:
-	   case SLANG_USHORT_TYPE:
-	     return transpose_shorts (at, bt);
-	  }
-     }
-   else
-     {
-	bt = SLang_create_array (at->data_type, 0, NULL, max_dims, num_dims);
-	if (bt == NULL) return NULL;
-     }
-
-   sizeof_type = at->sizeof_type;
-   is_ptr = (at->flags & SLARR_DATA_VALUE_IS_POINTER);
-
-   memset ((char *)dims, 0, sizeof(dims));
-
-   b_data = (char *) bt->data;
-
-   do
-     {
-	if (-1 == _SLarray_aget_transfer_elem (at, dims, (VOID_STAR) b_data,
-					       sizeof_type, is_ptr))
-	  {
-	     SLang_free_array (bt);
-	     return NULL;
-	  }
-	b_data += sizeof_type;
-     }
-   while (0 == next_transposed_index (dims, max_dims, num_dims));
-
-   transpose_dims:
-
-   num_dims = bt->num_dims;
-   for (i = 0; i < (int) num_dims; i++)
-     bt->dims[i] = max_dims [num_dims - i - 1];
-
-   return bt;
-}
-
-static void array_transpose (SLang_Array_Type *at)
-{
-   if (NULL != (at = transpose (at)))
-     (void) SLang_push_array (at, 1);
-}
-
-static int get_inner_product_parms (SLang_Array_Type *a, int *dp,
-				    unsigned int *loops, unsigned int *other)
-{
-   int num_dims;
-   int d;
-   
-   d = *dp;
-   
-   num_dims = (int)a->num_dims;
-   if (num_dims == 0) 
-     {
-	SLang_verror (SL_INVALID_PARM, "Inner-product operation requires an array of at least 1 dimension.");
-	return -1;
-     }
-
-   /* An index of -1 refers to last dimension */
-   if (d == -1)
-     d += num_dims;
-   *dp = d;
-
-   if (a->num_elements == 0)
-     {				       /* [] # [] ==> [] */
-	*loops = *other = 0;
-	return 0;
-     }
-
-   *loops = a->num_elements / a->dims[d];
-
-   if (d == 0)
-     {
-	*other = *loops;  /* a->num_elements / a->dims[0]; */
-	return 0;
-     }
-   
-   *other = a->dims[d];
-   return 0;
-}
-
-/* This routines takes two arrays A_i..j and B_j..k and produces a third
- * via C_i..k = A_i..j B_j..k.
- * 
- * If A is a vector, and B is a 2-d matrix, then regard A as a 2-d matrix
- * with 1-column.
- */
-static void do_inner_product (void)
-{
-   SLang_Array_Type *a, *b, *c;
-   void (*fun)(SLang_Array_Type *, SLang_Array_Type *, SLang_Array_Type *,
-	       unsigned int, unsigned int, unsigned int, unsigned int, 
-	       unsigned int);
-   unsigned char c_type;
-   int dims[SLARRAY_MAX_DIMS];
-   int status;
-   unsigned int a_loops, b_loops, b_inc, a_stride;
-   int ai_dims, i, j;
-   unsigned int num_dims, a_num_dims, b_num_dims;
-   int ai, bi;
-
-   /* The result of a inner_product will be either a float, double, or
-    * a complex number.
-    * 
-    * If an integer array is used, it will be promoted to a float.
-    */
-   
-   switch (SLang_peek_at_stack1 ())
-     {
-      case SLANG_DOUBLE_TYPE:
-	if (-1 == SLang_pop_array_of_type (&b, SLANG_DOUBLE_TYPE))
-	  return;
-	break;
-
-#if SLANG_HAS_COMPLEX
-      case SLANG_COMPLEX_TYPE:
-	if (-1 == SLang_pop_array_of_type (&b, SLANG_COMPLEX_TYPE))
-	  return;
-	break;
-#endif
-      case SLANG_FLOAT_TYPE:
-      default:
-	if (-1 == SLang_pop_array_of_type (&b, SLANG_FLOAT_TYPE))
-	  return;
-	break;
-     }
-
-   switch (SLang_peek_at_stack1 ())
-     {
-      case SLANG_DOUBLE_TYPE:
-	status = SLang_pop_array_of_type (&a, SLANG_DOUBLE_TYPE);
-	break;
-
-#if SLANG_HAS_COMPLEX
-      case SLANG_COMPLEX_TYPE:
-	status = SLang_pop_array_of_type (&a, SLANG_COMPLEX_TYPE);
-	break;
-#endif
-      case SLANG_FLOAT_TYPE:
-      default:
-	status = SLang_pop_array_of_type (&a, SLANG_FLOAT_TYPE);
-	break;
-     }
-   
-   if (status == -1)
-     {
-	SLang_free_array (b);
-	return;
-     }
-   
-   ai = -1;			       /* last index of a */
-   bi = 0;			       /* first index of b */
-   if ((-1 == get_inner_product_parms (a, &ai, &a_loops, &a_stride))
-       || (-1 == get_inner_product_parms (b, &bi, &b_loops, &b_inc)))
-     {
-	SLang_verror (SL_TYPE_MISMATCH, "Array dimensions are not compatible for inner-product");
-	goto free_and_return;
-     }
-       
-   a_num_dims = a->num_dims;
-   b_num_dims = b->num_dims;
-
-   /* Coerse a 1-d vector to 2-d */
-   if ((a_num_dims == 1) 
-       && (b_num_dims == 2)
-       && (a->num_elements))
-     {
-	a_num_dims = 2;
-	ai = 1;
-	a_loops = a->num_elements;
-	a_stride = 1;
-     }
-
-   if ((ai_dims = a->dims[ai]) != b->dims[bi])
-     {
-	SLang_verror (SL_TYPE_MISMATCH, "Array dimensions are not compatible for inner-product");
-	goto free_and_return;
-     }
-
-   num_dims = a_num_dims + b_num_dims - 2;
-   if (num_dims > SLARRAY_MAX_DIMS)
-     {
-	SLang_verror (SL_NOT_IMPLEMENTED,
-		      "Inner-product result exceed max allowed dimensions");
-	goto free_and_return;
-     }
-
-   if (num_dims)
-     {
-	j = 0;
-	for (i = 0; i < (int)a_num_dims; i++)
-	  if (i != ai) dims [j++] = a->dims[i];
-	for (i = 0; i < (int)b_num_dims; i++)
-	  if (i != bi) dims [j++] = b->dims[i];
-     }
-   else
-     {
-	/* a scalar */
-	num_dims = 1;
-	dims[0] = 1;
-     }
-
-   c_type = 0; fun = NULL;
-   switch (a->data_type)
-     {
-      case SLANG_FLOAT_TYPE:
-	switch (b->data_type)
-	  {
-	   case SLANG_FLOAT_TYPE:
-	     c_type = SLANG_FLOAT_TYPE;
-	     fun = innerprod_float_float;
-	     break;
-	   case SLANG_DOUBLE_TYPE:
-	     c_type = SLANG_DOUBLE_TYPE;
-	     fun = innerprod_float_double;
-	     break;
-#if SLANG_HAS_COMPLEX
-	   case SLANG_COMPLEX_TYPE:
-	     c_type = SLANG_COMPLEX_TYPE;
-	     fun = innerprod_float_complex;
-	     break;
-#endif
-	  }
-	break;
-      case SLANG_DOUBLE_TYPE:
-	switch (b->data_type)
-	  {
-	   case SLANG_FLOAT_TYPE:
-	     c_type = SLANG_DOUBLE_TYPE;
-	     fun = innerprod_double_float;
-	     break;
-	   case SLANG_DOUBLE_TYPE:
-	     c_type = SLANG_DOUBLE_TYPE;
-	     fun = innerprod_double_double;
-	     break;
-#if SLANG_HAS_COMPLEX
-	   case SLANG_COMPLEX_TYPE:
-	     c_type = SLANG_COMPLEX_TYPE;
-	     fun = innerprod_double_complex;
-	     break;
-#endif
-	  }
-	break;
-#if SLANG_HAS_COMPLEX
-      case SLANG_COMPLEX_TYPE:
-	c_type = SLANG_COMPLEX_TYPE;
-	switch (b->data_type)
-	  {
-	   case SLANG_FLOAT_TYPE:
-	     fun = innerprod_complex_float;
-	     break;
-	   case SLANG_DOUBLE_TYPE:
-	     fun = innerprod_complex_double;
-	     break;
-	   case SLANG_COMPLEX_TYPE:
-	     fun = innerprod_complex_complex;
-	     break;
-	  }
-	break;
-#endif
-      default:
-	break;
-     }
-
-   if (NULL == (c = SLang_create_array (c_type, 0, NULL, dims, num_dims)))
-     goto free_and_return;
-
-   (*fun)(a, b, c, a_loops, a_stride, b_loops, b_inc, ai_dims);
-
-   (void) SLang_push_array (c, 1);
-   /* drop */
-
-   free_and_return:
-   SLang_free_array (a);
-   SLang_free_array (b);
-}
-
-
-
-static SLang_Intrin_Fun_Type Array_Fun_Table [] =
-{
-   MAKE_INTRINSIC_1("transpose", array_transpose, SLANG_VOID_TYPE, SLANG_ARRAY_TYPE),
-   SLANG_END_INTRIN_FUN_TABLE
-};
-
-int SLang_init_array (void)
-{
-   if (-1 == SLadd_intrin_fun_table (Array_Fun_Table, "__SLARRAY__"))
-     return -1;
-#if SLANG_HAS_FLOAT
-   _SLang_Matrix_Multiply = do_inner_product;
-#endif
-   return 0;
-}
-